arXiv:2102.00543v1
Abstract
We improve on a result by Svetlana Jitomirskaya and Wencai Liu dealing with inhomogeneous Diophantine approximation in the coprime setting.
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Not a correctness certificate. A “Correct” result may include yellow typos or minor formal corrections that do not affect substantive soundness. It means this audit found no unresolved substantive error under the stated criteria; it does not replace expert scrutiny or formal verification.
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Detailed mathematical audit
01Statements2 reported findingsCorrect
The construction of uncountably many irrational shifts with the stated lower bound for all primitive lattice points is correct.
The nested continued-fraction and congruence construction excludes primitive points
Pages 2 and 6–9 · Theorem 1 and final construction · arXiv:2102.00543v1
The Chinese-remainder arrays force every lattice point in the relevant moving rectangle to have a common prime divisor. The rapidly growing continued-fraction digits make those rectangles cover all sufficiently large candidate approximants, while the nested choices leave uncountably many limit pairs.
Full paper, version 1 ↗Several indices, endpoints, and planar coordinates are local typos
Pages 6–9 · Remark 2, Section 4, and proof of Theorem 1 · arXiv:2102.00543v1
In Remark 2, must be . The convergence estimate in Section 4 has one spurious on the index of . In case , the three occurrences of must use , where . The second endpoint is , and the later vector printed with coordinates must be . The adjacent recurrence and displayed first-coordinate bounds uniquely fix all of these repairs.
02Proofs2 reported findingsCorrect
The prime-grid, continued-fraction, and nesting arguments are complete after the local point-label corrections.
The Chinese-remainder arrays propagate through the convergents
Pages 2–6 · prime arrays, affine lattices, and the recursion for · arXiv:2102.00543v1
The prime blocks assign a common prime divisor to every small coefficient pair, and the Chinese remainder theorem produces compatible residue classes . The divisibility imposed on each next partial quotient makes the recurrence for move from into . Coprimality of the successive moduli leaves an admissible positive choice of near the required midpoint.
The covering scale matches the prime-grid obstruction
Pages 2–9 · prime construction and proof of Theorem 1 · arXiv:2102.00543v1
The prime product has the required logarithmic asymptotic, the next partial quotient dominates that product, and each primitive candidate is forced into a congruence cell carrying a common divisor. The independent free choices at infinitely many stages yield uncountably many limits.
03Novelty0 reported findingsNo non-novelty findings
No non-novelty findings.